set of hands-on experiments to address diversityand inclusion aspects of teamwork in experimental studies. Using circuits and electronicsexperiments and the junior design class, the authors have studied different intervention strategiesthat can be easily used by instructors to promote greater engagement by URMs in engineeringteams.AcknowledgementThe authors gratefully acknowledge the support of the National Science Foundation awardnumber 1626362. Dr. Abby Ilumoka is the program manager. We would also like to thankmembers of the Vertically-Integrated Projects team on Hands-On Learning; in particular, EmilyFarmer, Cooper Felkins, and William Thompson for contributions to the beam bending apparatusand Du Ange, Sophia Cuellar, Alison Shutzberg
. Raviv, W. Zhou and A. Shapira, "Safety by design: dialogues between designers and builders using virtual reality," Construction Management and Economics, vol. 33, p. 55–72, 2015.[19] D. Zhao and J. Lucas, "Virtual reality simulation for construction safety promotion," International journal of injury control and safety promotion, vol. 22, p. 57–67, 2015.[20] J. Goh, S. Hu and Y. Fang, "Human-in-the-loop simulation for crane lift planning in modular construction on-site assembly," in Computing in Civil Engineering 2019: Visualization, Information Modeling, and Simulation, American Society of Civil Engineers Reston, VA, 2019, p. 71–78.[21] P. Wang, P. Wu, H.-L. Chi and X. Li, "Adopting lean thinking in
Paper ID #16066Work in Progress: Immersive First-Year Experience for Bioengineering Cur-riculaDr. Jennifer R. Amos, University of Illinois, Urbana-Champaign Dr Amos joined the Bioengineering Department at the University of Illinois in 2009 and is currently a Sr Lecturer and Director of Undergraduate programs. She received her B.S. in Chemical Engineering at Texas Tech and Ph.D. in Chemical Engineering from University of South Carolina. She has developed and offered more than 5 courses since joining the faculty and has taken the lead roll in curriculum development for the department.Dr. Marcia Pool, University of Illinois
AC 2012-4595: HOW INDIVIDUALS LEARN FALL PROTECTIONDr. R. Casey Cline, Boise State University Casey Cline is an Assistant Professor in the Construction Management Department within the College of Engineering at Boise State University. Cline earned a B.S. in business administration from Okla- homa State University, an M.S. in construction science from the University of Oklahoma, and a Ph.D. in education (adult development organizational learning) from the University of Idaho. His educational research interests are focused on improving construction management processes to facilitate the efficient management of construction projects. His more than 25 years of construction industry experience, which includes work in
Computer Engineering,and Engineering Management programs. Some types of courses may lend themselves more Page 13.606.2readily to use of Tablet PCs than others. For example, in design courses or courses that integrateuse of online resources, modeling software, or other technologically-based exercises, in-class useof Tablet PCs can help streamline the class presentation and learning activities. Only Tablet PCuse in courses at the upper division level is discussed in this paper.Engineering Management courses discussed in this paper each had over 20 students in a section,and the instructor presented materials using a Tablet PC while students took
in Engineering Program (WE@RIT); ME Department Advocate for Engineering Honors Program; and Member of Multidisciplinary Capstone Design Leadership Team. Page 12.670.1© American Society for Engineering Education, 2007 Enhancing Life-Long Learning and Communication Abilities through a Unique Series of Projects in ThermodynamicsAbstractMechanical engineering courses in Thermodynamics typically provide a detailed treatment of thefirst and second laws of thermodynamics from a classical viewpoint in order to prepare studentsfor subsequent courses and ultimately, engineering practice. Therefore, thermodynamics
. Manufacturing ismore than machining. The personnel needed by this industry must be able to performmultiple functions from design to distribution. In other words, the manufacturingindustry needs to be seen holistically – as a complete system involving many peopleof varying educational backgrounds. Companies are looking for individuals withdiverse technical expertise to perform multiple functions in support of theirmanufacturing enterprises.Many youth and adults have little knowledge of engineering and manufacturing careeroptions. Parents, teachers, and educators lack exposure to the understanding of thehighly technical manufacturing world. Early education is a key element in engineeringand manufacturing career awareness.The intent of this contribution
theassignments to practice critical thinking will also be complex. According to theliterature3, most assignments take one of two forms: reflective writing or solving open- Page 14.444.3ended problems. Since this project focuses on critical thinking in engineering andtechnology, solving open ended problems is a natural fit: problem solving is an objectiveof all accredited engineering and technology programs6,7. Many programs and coursesrequire some type of design or project that asks students to define a problem, posepossible solutions, select the “best” solution, then implement and test their solution.These types of projects may be done in a group or
University in their School of Construction Management. Brad focuses on construction supervision, project management, strategic planning, preconstruction, and sustaining the built environment. At Purdue, Benhart also leads the Healthcare Construction Management program and works with the first ASHE (American Society of Healthcare Engineering) student chapter. His position allows him to further develop construction education in the built environment and be an in- dustry advocate for the next generation of builders. He is also very involved in field supervision training programs, both at Purdue and on the national level. He focuses on the sustainability of our industry by mentoring the retiring baby boomers with new foremen
, and selected constituent items Technical skills (10 items) Please rate how well prepared you are to incorporate each of the following items while practicing as an engineer: Applying the Design Loop Manufacturing Skills Data analysis Problem solving Math Conducting experiments Professional skills (16 items) Please rate how well prepared you are to incorporate each of the following items while practicing as an engineer: Presentation Skills Written technical communication Teamwork Management skills Communication CreativityIn order to model and examine the impact of the
biophysical control of induced pluripotent stem cells, biomaterial development for complex tissue regeneration, and inten- tionally building inclusion into research design and execution. This connects to his broader vision to make engineering spaces more diverse, more equitable, and more inclusive. He has held administrative positions in programs to broaden the participation of historically excluded students in engineering. Dr. Dickerson’s work in expanding participation in engineering has yielded significant programmatic inter- ventions, institutional change activities, and national strategic initiatives. He also serves as the Director of Engineering Workforce and Education for the CELL-MET ERC. Dr. Dickerson manages the
(EML) into an undergraduate Dynamics course within a mechanical engineering program. A “KEEN” team project was given to the students in which they were asked to pretend that they were members of a startup company that would design, build, test, market, and sell a product with some dynamics content to it. As part of the exercise, the 20 teams worked on idea generation, concept development and identification of required activities, in addition to writing a draft Business Plan. Product ideas varied across different economic sectors including power generation, sports technology, transportation, food and beverage technology, and health care. Grading of the resulting reports incorporated factors such as: (1
. Page 7.130.1In addition, some courses require students to perform quizzes and submit assignments via Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationthe WEB, which facilitates grading and record keeping. These course managementfunctions are well addressed by conventional tools, such as WebCT 4. The site describedhere could be called by any Web-based course-management system. In spite of many impressive achievements, we have not yet tapped the fullpotential of digital computation in engineering education. This paper presents a noveluse of computers in education that emphasizes active learning, rather than
the work place. The full questionnaire is included as the appendix of this paper. The Civil Engineering Technology program at GSU has graduated over 200 students sinceits start in 1975. From 1976 to 1996, the scope of this project, 21 women graduated. Most ofthese women were the only female in their CET classes. Over the past five years there havetypically been 18-22 graduates with usually no more than two women in any one class. Womenare still rare in CET at GSU. Until just recently these women took jobs in areas or offices that hadfew if any females in technical positions and almost all of the women had men for their immediatesupervisor. Several of the earlier women graduates have progressed to project director positionswhere they
Elliott (Director, External Affairs)Lance Cooper (Associate Head for Graduate Programs)Julie Zilles Dr. Zilles is a Research Associate Professor in the Department of Crop Sciences at the University of Illinois Urbana Champaign. She received her B.S. in biology from the Massachusetts Institute of Technology and her Ph.D. in Bacteriology from the University of Wisconsin Madison. In addition to research at the intersection of microbiology, agriculture, and environmental engineering, she leads the transdisciplinary Writing Across Engineering and Science(WAES) team, which is focused on promoting and adapting best practices from writing studies for STEM classes andcurricula. © American Society for Engineering
, civic organization or environmental authority. The practitioner(s) proposesa specific project with relevant work efforts that will complement their real-world assignmentsand can be completed by undergraduate environmental science and engineering capstonestudents. Faculty members work with the practitioner to refine the proposed capstone project tomeet the educational objectives of the capstone course. These mutually beneficial relationshipsresult in positive “community engagement” which is an increasingly important factor touted byuniversities. The positive community engagement aspect of capstone projects is especiallyimportant to state-funded universities for student recruiting, promoting programs to non-localalumni and for interacting with
of the 2001 American Society for Engineering Education Annual Conference and Exposition Copyright 2001, American Society for Engineering Education 5. ensure the continuing technical competency of faculties who teach telecommunications-related programs in the Northeast and nationally.Other educational partners are located at exceptional institutions throughout the Northeast andthe Center’s Business and Industry partners are listed at the end of this summary. The educationaland industrial collaborators together is addressing the needs of business and industry for aneducated workforce in telecommunications technologies by designing, developing, andimplementing a new infrastructure for telecommunications
end of this module, students should be able to:1. Use a clear, organized solution procedure for analytical problems;2. Read and make an accurate schematic of simple electronic circuits;3. Program in HP VEE for signal design and instrument operation;4. Recognize simple electronic circuit board components and traces.5. Operate the oscilloscope, power supply and function generator.Attitude Outcomes: This module fosters the following attitudes:1. A positive feeling towards the electronics instrumentation area and its challenges;2. An increased appreciation for the way a practicing engineer approaches open-ended problems;3. An appreciation for the importance of clarity, organization, accuracy, and neatness in
AC 2010-2079: TEACHING PROCESS FOR TECHNOLOGICAL LITERACY: THECASE OF NANOTECHNOLOGY AND GLOBAL OPEN SOURCE PEDAGOGYRichard Doyle, Penn State University Professor of English and Science, Technology, and Society at Penn State University, Richard Doyle specializes in the rhetoric of emerging science and technology. He is an award winning teacher and he has published numerous books and articles.Richard Devon, Pennsylvania State University Professor of Engineering Design, Engineering Design Program, SEDTAPP, Penn State University. Devon has written widely on design ethics and on design education with a focus on communication technologies
Great Problems Seminars: A New First-Year Foundation at WPI Arthur Heinricher1, Brian Savilonis2, David Spanagel3, Robert Traver4, Kristin Wobbe5AbstractThe Great Problems Seminars are a new program designed to engage Worcester PolytechnicInstitute’s first-year students with current events, societal problems, and human needs. Eachseminar starts with an important global problem and helps students to find a place where they canmake real progress, no matter how small, in solving the problem.Four WPI faculty representing Chemistry, Mechanical Engineering, and Humanities developedand delivered two Great Problems Seminars in 2007. Feed the World
Great Problems Seminars: A New First-Year Foundation at WPI Arthur Heinricher1, Brian Savilonis2, David Spanagel3, Robert Traver4, Kristin Wobbe5AbstractThe Great Problems Seminars are a new program designed to engage Worcester PolytechnicInstitute’s first-year students with current events, societal problems, and human needs. Eachseminar starts with an important global problem and helps students to find a place where they canmake real progress, no matter how small, in solving the problem.Four WPI faculty representing Chemistry, Mechanical Engineering, and Humanities developedand delivered two Great Problems Seminars in 2007. Feed the World
Great Problems Seminars: A New First-Year Foundation at WPI Arthur Heinricher1, Brian Savilonis2, David Spanagel3, Robert Traver4, Kristin Wobbe5AbstractThe Great Problems Seminars are a new program designed to engage Worcester PolytechnicInstitute’s first-year students with current events, societal problems, and human needs. Eachseminar starts with an important global problem and helps students to find a place where they canmake real progress, no matter how small, in solving the problem.Four WPI faculty representing Chemistry, Mechanical Engineering, and Humanities developedand delivered two Great Problems Seminars in 2007. Feed the World
educational services of the ATC. Prior to joining WCC, Al was the Director of Employer Strategies at the Workforce Intelligence Network (WIN) for Southeast Michigan. He worked with regional businesses and workforce development professionals to meet workforce talent requirements, both short-term needs and longer-term career talent pipelines. Al brings several years’ experience collaborating with the nine community colleges of Southeast Michigan in developing center-of-expertise regional educational programs and managing federal grants related to educational capacity building and workforce training. Prior to this, Al worked at Ford Motor Company, Powertrain Engineering, at the Dearborn Research & Engineering Center, in
, Sandia, and Livermore National Labs.Each lab owns two weeks of the afternoon. Lab staff have taught in both virtual and in-personmodalities. Lab-led projects include Sandia’s TracerFire Cybersecurity Program, Design andFabrication of Explosives Testing Devices, and Non-Destructive Evaluation Testing. Theseexperiences helped participants understand some of the research conducted every day at partnerlabs and encouraged them to pursue STEM Core internships at partner labs in future summers. Employers have also interacted directly with STEM Core students by serving as judgeson engineering design competitions, hosting hackathons, or collaborating directly with a on-campus, student-led group such as Society for Women Engineers (SWE).Internship
Paper ID #33433Early Detection of Delayed Graduation in Master’s StudentsDr. David Ruete, Universidad Andres Bello David Ruete has the academic training of: Doctor in Multimedia Technologies, Master in Multimedia Technologies, Electronic Civil Engineer and Bachelor of Engineering Sciences. At present, his position is Director of the School of Engineering of the Andres Bello University, and responsible for the curricular innovation processes of the undergraduate programs of the Faculty of Engineering. His research area is Educational Management, undergraduate and graduate programs, using predictive models based on
Education - Washington, Washington, DC, 1996, NSF-PARS 0-7803- 3348-9.[28] G. L. Baldwin, V. L. Booth Womack, S. E. LaRose, C. S. Stwalley, R. M. Stwalley III, "The value of climate in educational programs for diverse student populations within engineering disciplines," in ASABE 2021 AIM - Pasadena, St. Joseph, 2021, doi: 10.13031/aim.212100005.[29] R. M. Stwalley III, "Assessing improvement and professional career skill in senior capstone design through course data," International Journal of Engineering Pedagogy 7, no. 3, pp. 130-146, 2017, doi: 10.3991/ijepv7i3.7390.[30] R. M. Stwalley III, "Professional career skills in senior capstone design," in ASEE Capstone Conference - Columbus, Washington, DC, 2016, Archived
definition of problem solving: “… the ability to identify anddefine a problem, develop and evaluate alternative solutions, and effect one or more designs tosolve the problem.” While development of effective problem-solving skills is a primary goal ofengineering education, reaching this goal is very challenging. Most engineering science classesrequire substantial coverage of content, leaving little time for teaching problem solving skills.Moreover, problem solving involves high-level skills, and most students cannot learn these skillsin a short time. Another issue is that many students have learned “dead-end” problem solvingtechniques. That is, they use techniques that are effective for textbook problems, but ineffectivefor practical problems
computational tasks. For example, IV. SOFTWARE AND MANAGEMENT the popular NumPy [5] package includes a set of linear algebraA key design goal of the WolfBot platform is to maximize tools used extensively for kinematic motion calculationsaccessibility to researchers. This goal has been realized in processed locally on the WolfBot.three parts: simplified access to hardware (sensors, actuators,communications), compatibility with popular software C. WolfBot Managementlibraries (e.g. the Open Source Computer Vision (OpenCV) As the number of WolfBots grows, care must be taken tolibrary [6] and Robot Operating System (ROS) [10]), and ease ensure
Abstract Concepts towards Better Learning Outcomes and Self-Efficacy AbstractWe constructed and analyzed an evidence-based practice case to see if visual models helpstudents develop a better understanding of abstract concepts and enhance their self-efficacywhen solving engineering problems. Abstract concepts without corresponding physicalphenomena are often found in the domains of industrial engineering, engineeringmanagement, and systems engineering. In this study, we focus on inventory control of asupply chain, which is typically a junior level undergraduate production systems course in anindustrial engineering program. Visual models of inventory behaviors were designed tocomplement the
funding cycle phases out, the overall structure willcontinue to exist and work to meet the challenge of educating and graduating more minoritybachelor's and doctorates. We have been able to put in place both the design and theaccompanying operational mechanisms to coordinate a regional, coherent, sequential andsystematic approach to the challenge of educating minorities in science and engineering throughthe Ph.D. The WAESO institutions genuinely operate within a framework of a sophisticatedconsortial structure thattakes the best and most effective programs from each campus and brings them together into aunified strategy to meet the problem. There is now a common set of goals, purpose, and overallprogrammatic approach to guide the 36 participating